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TWI358655B - Optoelectronic input device, method of operation f - Google Patents

Optoelectronic input device, method of operation f Download PDF

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Publication number
TWI358655B
TWI358655B TW093101754A TW93101754A TWI358655B TW I358655 B TWI358655 B TW I358655B TW 093101754 A TW093101754 A TW 093101754A TW 93101754 A TW93101754 A TW 93101754A TW I358655 B TWI358655 B TW I358655B
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TW
Taiwan
Prior art keywords
laser
measuring
optical
block
radiation
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TW093101754A
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Chinese (zh)
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TW200511130A (en
Inventor
Samber Marc Andre De
Roger A Vranken
Johannes Wilhelmus Weekamp
Original Assignee
Koninkl Philips Electronics Nv
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Publication of TW200511130A publication Critical patent/TW200511130A/en
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Publication of TWI358655B publication Critical patent/TWI358655B/en

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    • GPHYSICS
    • G06COMPUTING OR CALCULATING; COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
    • G06F3/00Input arrangements for transferring data to be processed into a form capable of being handled by the computer; Output arrangements for transferring data from processing unit to output unit, e.g. interface arrangements
    • G06F3/01Input arrangements or combined input and output arrangements for interaction between user and computer
    • G06F3/03Arrangements for converting the position or the displacement of a member into a coded form
    • G06F3/041Digitisers, e.g. for touch screens or touch pads, characterised by the transducing means
    • G06F3/042Digitisers, e.g. for touch screens or touch pads, characterised by the transducing means by opto-electronic means
    • G06F3/0421Digitisers, e.g. for touch screens or touch pads, characterised by the transducing means by opto-electronic means by interrupting or reflecting a light beam, e.g. optical touch-screen
    • GPHYSICS
    • G06COMPUTING OR CALCULATING; COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
    • G06F3/00Input arrangements for transferring data to be processed into a form capable of being handled by the computer; Output arrangements for transferring data from processing unit to output unit, e.g. interface arrangements
    • G06F3/01Input arrangements or combined input and output arrangements for interaction between user and computer
    • G06F3/03Arrangements for converting the position or the displacement of a member into a coded form
    • GPHYSICS
    • G06COMPUTING OR CALCULATING; COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
    • G06F3/00Input arrangements for transferring data to be processed into a form capable of being handled by the computer; Output arrangements for transferring data from processing unit to output unit, e.g. interface arrangements

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  • Engineering & Computer Science (AREA)
  • Theoretical Computer Science (AREA)
  • General Engineering & Computer Science (AREA)
  • Human Computer Interaction (AREA)
  • Physics & Mathematics (AREA)
  • General Physics & Mathematics (AREA)
  • Length Measuring Devices By Optical Means (AREA)
  • Photometry And Measurement Of Optical Pulse Characteristics (AREA)
  • Optical Radar Systems And Details Thereof (AREA)
  • Semiconductor Lasers (AREA)
  • Measurement Of Optical Distance (AREA)
  • Analysing Materials By The Use Of Radiation (AREA)
  • Containers And Plastic Fillers For Packaging (AREA)
  • Solid State Image Pick-Up Elements (AREA)

Abstract

The invention relates to an optoelectronic input device ( 10 ) in which the input is formed by detected movements of an object (M), the device comprising an optical module ( 11 ) comprising at least one laser ( 1,1 ') with a cavity for the generation of a measuring radiation beam (S), optical means ( 2 ) for the guidance of the radiation beam (S) to a plane (V) close to the object (M) and conversion means (C) for the conversion of measuring beam radiation reflected and modulated by the object into an electrical signal, wherein the conversion means (C) are formed by a combination of the cavity of the laser ( 1 ) and measuring means ( 3 ) for measuring a change in the cavity during operation, which radiation is caused by reflected radiation entering the cavity. The optical module ( 11 ) comprises the laser ( 1 ) mounted on a mounting board ( 4 ) with its cavity parallel thereto, and the optical means ( 2 ) comprises an optical component ( 2 ) like a mirror ( 2 ) mounted on the board ( 4 ) and aligned to the laser ( 1 ) which directs the beam (S) towards the plane (V). According to the invention the device ( 10 ) comprises a further optical component comprising a block-shaped body ( 5 ) which along side the laser ( 1 ) is directly mounted on the mounting board ( 4 ) and viewed in projection does not show overlap with the laser ( 1 ) and of which at least the upper part ( 5 A) is optically transparent and of which the upper side forms the plane (V) close to the object (M). Such a device ( 10 ) can be relatively compact and, moreover, it can be manufactured more easily and cost-effectively. The invention also comprises a method of manufacturing such a device and a method for inputting the movement of an object (M) therewith.

Description

1358655 玖、發明說明: 【發明所屬之娃術領域】 本發明關於一種光電輸入裝置,其中該輸入由一物體被 測量到的移動所形成,該裝置包含··一光學模組,其具有 至少一個含有用以製造測量射線光東雷射的腔室的雷射; 光學構件,用以導引射線光束至一靠近該物體的平面,以 及轉換構件’用以轉換被該物體反射且調變的測量射線光 束之該射線為一電子信號,該轉換構件由該雷射的該腔室 及測量構件所組合而成,該孩彳量構件用以測量在作業中該 腔室内的變化’而該射線由進入該腔室之被反射的該射線 所引起’其代表了該物體相對於該模組的移動,該光學模 組包含架設在一架設板上,腔室與其平行的雷射,以及該 光學構件包含一光學零件,其架設在該架設板上,並且向 該雷射對齊,從該雷射放出的測量射線光束在此處前往靠 近該物體的該平面。 一此類的裝置特別適合用作一個人電腦的輸入構件,在 此’文件上常被稱做滑鼠的功能可被取代。本裝置還更為 適合在一可攜裝置中用作一卷軸或點擊(click)裝置,例如 用在一行動電話通常稱做捲軸選單的動作。在一個印表機 或掃描器中,輸入或輸出媒介的移動可以用本裝置偵測出 來。本發明也關於一種製造此等裝置的操作方法,以及一 種以此等裝置協助,測量一物體的運動的操作方法。 【先前技術】 從在2002年8月8日被公開的一美國專利申請案仍 90891.doc 1358655 2002/0104957,一種在導言中被命名的該種裝置已被熟 知。在此文体:中-見圖9a-—輸入裝置被示出,其在一架設板 上,該架設板被形成為一與架設針相互匹配的足部,一雷 射與其腔室被安置’平行於該架設板。該裝置包含三具該 等雷射,該等雷射以120度角裝配(見圖9b)。在該等雷射周 圍,一環狀體被裝上,其一内側形成一聚焦鏡,導引被該 雷射放射的一測量射線光束經由一透鏡至一窗戶,該窗戶 在該模組的蓋子裡。部分該射線從上述過程被反射至一移 動物體,再直線回到該雷射的該腔室中。該腔室和測量構 件一起形成該被反射射線的轉換構件,一變 室中,表示了該物體的一相對運動。例如,該== 以包含在該雷射腔室的該阻抗中測量一變化的構件。一射 線偵測器也適於此一用途。 該習知裝置的-缺點為其對於許多應用而言非足夠小 巧’對:等應用而言更小的尺寸是被要求的。尤其此等裝 置的大量生產為不簡易且不便宜者。 【發明内容】 ★所以本發明的__目標是為了製造—在導言中被陳述的該 等裝置,其特別小巧而且便宜且簡易製造。 在導言中被陳述的—該等 進一步光學零件,其包含 ’該雷射的隔壁,並且當 疊,且其至少該最上部是 近該物體的平面。另一方 為了這個原因’根據本發明, 裝置的特徵在於為該裝置包含— 一塊形體’直接位於該架設板上 以投射觀看時和該雷射並沒有重 光學透明並早其該上側形成該靠 90891.doc 1358655 面’這表示本裝置可為相當小巧者。該測量射線光束以相 對於該架設板之〜可被導引到該塊㈣。藉由此 小角度,在抵達該上平面前,該射線光束可在該塊形體的 該透明部分裡來回反射數次。根據本發明,結果是該裝 置的該側向尺寸及該高度都被限定,然而該放射光束的二 相當大的光學範圍被創造出來,如同亨裝置適當運作所需 的。另一方面,該裝置的該最重要零件\例如該雷射,該 光學零件,其舉例為包含一鏡面,以及該塊形體,現在可 用表面架設(surface mounting)的方式,全部被附著在該架 設板上。以枝準的相當高精確度,以及快速且便宜的以通 稱為取置機(pick and place machine)的協助,這可以被做 到《因為該塊形體絕對沒有和特別是該雷射重疊的事實, 其可以簡單的被一透明塑膠材料封裝。在施用後固化的— 液態透明塑膠材料是特別適合此一目的。 較佳地,該塊形體被導向該測量射線光束的該透明最上 部份的一第一部份的一側,被做得向外傾斜。這使得該測 量射線光束在進入該塊形體的任何干擾被校正。該側相對 於法線的該角度的量為例如3〇度。該塊形體的該最上部份 更進一步包含放置在該第一部分上的一第二部分,其側面 和該架設板大致垂直。該射線光束可在本部分内反射數 次。該塊形體較佳地全部由一透明塑膠製成,如pMMA (PolyMethylMetaAcrylate)或聚碳酸酯(P〇lycarb〇nat勾。 在一有用變化中’該測量構件含有設置在該架設板上的 一射線偵測_,且該光學零件包含一聚焦鏡面,其位在一 90891.doc -9- 1358655 進一步塊形體的一側面上,該進一步塊形體裝置在該架設 板上,並且此側面被裝設有一進一步鏡面,其投射部分由 該雷射放出的該射線在該射線偵測器上。 在根據本發明一輸入裝置的一較佳的具體實施例中,該 雷射,該側量構件以及該光學構件被封裝在一硬化的光學 透明膠體内,其也包含從該雷射至該塊形體的該全部射線 距離。這造成該裝置或模組的至少最易受損且敏感零件之 一小巧且價廉的封裝。這也造成反射可能發生之媒介 (medium)轉換的次數限制。在本案中最佳的結果可用透明 矽塑膠材料而獲得。 較佳地,該架設板在一電及熱絕緣材料内,並且該架設 板的一側裝有一導體單元,該雷射及該側量構件被連接至 該導體單7L。這也對該裝置的小巧性有所貢獻^總的來講, 本裝置是價廉的’因為一大量的裝置可同時間被製造出 來。所謂印刷電路板(PCB,printed化心B〇ard)形成一特 別適用的架設板。 在本改變之一特別具有優點的修改中,該架設板具有一 開口’其#近該雷射,該雷射之開口至少其壁面被導熱材 料所覆蓋’其形成—該雷射的散熱物,或形成在該雷射和 該雷射的-散熱物之間的一.熱連結。如果該開口完全被諸 如銅之類材料所填滿,該雷射可裝設在其上。若需要,該 雷射可具有優點地裝設在該開口旁邊,且如此一來,位於 該開口中之該傳導金屬連結該雷射與位於該架設板下面的 90891.doc -10- 1358655 一散熱物。如此的改變使得減少該裝置之高度尺寸成為可 能或無論如何’該模組置於該架設板之上的該部分。 根據本發明,一用於一物體相對於一輸入裝置之移動之 測量的作業方法之特徵在於利用根據上述結論之_的一光 電輸入裝置之事實。因為該小巧性,該裝置特別適於應用 為輸入單元,在一行動電話之運作中,操作一所謂之捲軸 選單。在一膝上型電腦,該裝置也可有優點地被應用為通 稱之壓力墊,供多種選單之手指操作。 一光電輸入裝置之生產的作業方法,其中該輸入由一物 體被偵測之移動而形成,且該裝置與一光學模組配合起 來,該模組包含:至少一個具有腔室之雷射,用以產生— 測量射線光束;光學構件用以導引該射線光束至一靠近該 物體之平面;以及一轉換構件用以轉換被該物體反射的該 測量射線光束之射線為一電子訊號,其中該轉換構件由該 雷射的該腔室及測量構件用以測量在作業中該腔室内的變 化之組合而成,其由測量射線光束的被反射光束的干涉所 造成’該測量射線光束穿入該腔室及腔室内的恆定波,其 表示了該物體相對於該模組的一相對運動,該光學模組由 一架設板形成,其上安置有其腔室平行於該板之一雷射, 該光學構件由安置於該架設:板上之一光學零件形成且對準 該雷射,以供由該雷射放射出之測量射線光束之用,其由 該處被引導至罪近該物體之該平面,根據本發明,該光學 構件特徵在於該裝置被裝備有一進一步光學零.件,其包含 一塊形體,筹直接裝置於該架設板上且在該雷射旁邊,且 90891.doc •11- 1358655 由投射角度看,不和該雷射以任何方式重疊,且其至少該 最上部份是光學透明Μ並且其該上側形成一靠近該物體之 該平面。以此方法,根據本發明之—輪人裝置可被獲得。 較佳地’該測量構件由-射線偵測器構成,其裝置在該 架設板上並且該光學零件被形成為—聚焦鏡面並且裝置在 -進-步塊形體之-侧面,該進—步塊形體裝置係裝置在 該架設板上,且側面裝n步鏡面,其投射部分被該 雷射放出的該射線至該射線偵測器上。 、在-較佳實施财’㈣射,_量構件與該光學構件 被-液態光學透明的膠狀物覆蓋,其封住從該雷射至該塊 形體整個射線的路徑,且其在施用後硬化。 較好地電氣及熱絕緣材料被選擇作為㈣設板之材 料’其-面被裝有-導體單元,該雷射和該測量構件與其 連結。如此-纟,該最重要部分以表面黏著“时咖 mounting)的方式被附著於該架設板4具有優點的是,諸 如該雷射’該進-步光學零件,該光學構件以及該測量構 件的零件,以標準取置(piek and plaee)機的協助可被放置 在該架設板上。 在-特別地有優點的變化中,在諸如該雷射,進一步光 學零件,該光學構件或料量構件㈣校準㈣的零件被 放置在該架設板上之前,黏著區被形成在該架設板上,盆 中區域的該侧面尺寸被選定,和㈣相關零件安置在該架 設板上的該側的該側面尺寸幾乎相同。結果是,在該等零 件的位置之料小的校正中,該等相關零件的—精確校準 9089l.doc •12- 1358655 可被更進-步改善’其仍可用自我對準(selfregisterin^的 方式’藉㈣著區之助完成。具有銲料的區域特別適合此 一目的。在銲料融化的過程令,背面提供有金屬層的該等 零件被以自我登記的方式,相對於該銲㈣對齊。該等不 需要任何電氣連接的零件,例如該塊形體及該進一步塊形 體,也可具有優點地被以此法被黏著並校準。為了此目的, 此等零件之底面將特別被提供有—金屬層。—雷射及债測 器晶體將具有一此種傳導層以為規格。 【實施方式】 該等圖式並未依比例繪製,並p些尺寸,例如厚度的 尺寸’為了清晰而被誇大了。在不同圖式巾,對應的區域 或部分,在可能的範圍内,被給予相同的元件符號。 在圖1中顯示的該輸入裝置10包含一模組n,其具有一架 設板4,在此為一印刷電路板4。在此板上有一導體單元9,, 在此為銅區域9的形式。一雷射丨及一光電二極體3被裝設在 他們之上。為了該雷射丨及該光電二極體3的頂部連接一 連接線20被使用。光學構件2以一聚焦鏡面2的形式,被座 落在該雷射1及光電二極體3的一側上,該聚焦鏡面接收由 該雷射1放射之一測量射線光束s,對於該架設板呈大約3〇 度角的一角度導引至一進一’步光學零件(見圖2或3),其包含 位於該雷射1的一侧上的一塊形體,該雷射位在架設板4 上。在此實施例中,該模組丨丨包含多於一個雷射丨、丨,,其 中只有兩個被見於圖中。附屬於每一雷射i、丨,的該等零件 2、3也被以相應號碼表示。 90891.doc •13· 1358655 該塊形體5在此完全由稱做PMMA的一透明塑膠材料製 成。該射線光表S進入(見圖2)該塊形體5,其經由該最上部 份5A的一第一部分5A卜並且在置於該第一部份5A1之上— β 5A2部分内數次反射之後,到達該體5的該上平面v,在其 上方(請參閱圖1)有一移動物體Μ,舉例說為一紙張,或由 圖所示的,操作該裝置10的一人之手指Μβ被該移動手指Μ 反射的射線沿相反方向行進並且到達該雷射丨之該腔室,其 造成一改變,為被該手指之移動所造成的干涉的出現之結 果。在該貫施例中,該雷射丨的腔室中之該變化的出現以— 射線偵測器3的協助而被量測,該偵測器在此為一光電二極 體3,部分被該雷射1放射出的該射線入射在其上。以—進 一步鏡面7(請參閱圖3)的協助,可完成此事,該進一步鏡面 被安置於一進一步塊形體6的一側面上,此處其也由塑膠材 料製成。反射該射線光束S至該塊形體5之該鏡面2被裝置在 該同側面。該腔至,該進一步鏡面7以及該射線偵測器3形 成轉換構件C’其轉換被該物體Μ反射及調變之該射線成為 -電子訊號。-手指移動之偵測的更進一步細節被顯示在 上文所提及之美國專利申請案1;82〇〇2/〇1〇4957中。 如圖2所示,在架設板4中有一開口 12,靠近該雷射卜豆 至少壁面被熱傳導材料13所’覆蓋,該材料在此為銅,其連 接該雷射1與-㈣物14,該散熱物位於該架設板4相反於 該雷射1的那一側。 該塊形體5的該最上部份5Α的該第一部份5A1的每一側 面(同時一鏡.两2被置於對面)被建造得向外傾斜,在此和法 90891.doc -14 ** 1358655 線成30度。如此一來任何在進入該塊形體$時,從該射線光 束S來的反射都可被抵銷。 該雷射1以及在此也就是其餘部,例如該光電二極體3及 該進一步塊形體6,從投射角度看來,被置於該塊形體5之 外,其在圖4中被指出為一顯而易見的優點。 圖4以一概略且透視的視圖表示圖1的該裝置之一重要變 化。在此一透明封裝8可被看見,由於該塊形體5和該進一 步零件3、6的重疊不存在之故,其可輕易地被施用。該封 裝8包含在該雷射和該塊形體5之間的該光束s的整個射線 路徑,並且以覆蓋來保護該等零件並且對該裝置1〇的穩定 運作有助益,其也是因為干擾反射皆被避免,或至少被限 制的結果。如果有需要,一個薄的進一步封裝(未顯示於圖 中)可被施用在封裝8之上且其對射線是不透明的。該封裝8 在此為一矽基塑膠材料,為一種特別適合此目的的材料。 更進一步且更好地,如圖4所示,該塊形體5的該上平面v 被做成弧形。結果是,該裝置被整合入的一份裝備(如行動 電話)之使用者能夠輕易地發現,且適當清理該平面。 根據本發明的該裝置,舉例為圖中的該實施例,以根 據本發明運作的方法之助,可被如下製造出來。該開始點 (舉例見圖1)為一印刷電路版4,其有一開口 12,其壁面以一 銅層13所覆蓋。在該板4的該上側之上,一導體單元9被安 放以連結如該雷射1及該光電二極體3之主動電氣構件。尤 其對如該雷射1以及該光電二極體3之對校準敏感的零件, 還有也為了磚塊形體5、6,銲料區(不見於圖中)被施用在該 90891.doc -15· 1358655 板4的該上側,先前預定的精確位置上。* iS ^ JL Φ u ^ ^ 廷些區域的尺寸被 k疋為實際上和被安放的該等零 ^ ♦仵如雷射丨,光電二極體 6 3極體5、6,之尺寸完全相同。所有這些零件卜3、5 在其底面都有金屬層(也沒有顯示出來卜 然後以取置機器的幫助,該等上述之零件被 相對精確地放置在上述之銲料區上。然後與板4的固定發生 於-焊接過程,藉以自動修正該等被放置零件之小誤差。 這提供了以-種簡易’快速而價廉的方式使該模組"的 該零件1、3、5、6彼此之収夠精相對準。在該等零件 的此表面絲之後,該等主動電氣零件之需要的額外電氣 連接可用連接線2G加以完成一熱壓縮技術(加删_ compression)可被用於此。 然後(見圖4),以液滴8的形式矽塑膠材料製的一封裝被 施用,其覆蓋該雷射1’該光電二極體3以及該鏡面h在該 雷射和該塊形體5之間的該光束S的該射線路徑即可被發現 在此液滴之中《該等主動電氣零件丨、3的該電氣連接(沒有 在圖中顯示)延伸至該封裝8外側,或者如果有需要,則位 於該板4的該底面。在該封裝8硬化之後,例如可經由加熱, 該裝置10即準備好可供使用。由於該模組丨丨的該結構,一 大數量的裝置10可輕易地同時被製造出來。經由鋸切之類 的一分割技術’他們可彼此間被分開。一單獨的該裝置i 〇 之尺寸為大約30*30公爱然而該高度不大於1〇公爱。該塊 形體5為10公釐高,而且量起來為例如5公釐*5公爱。 90891.doc -16· 1358655 本發明不被限於被描述之該具體實施例,因為對於—專 家而言,在本^發明的框架内,許多變化及修改都是可能的。 所以裝置可以不同的形狀或尺寸被生產出來。為了應用, 根據本發明的該裝置也可包含一個或多於兩個雷射以及其 附屬零件。可以取代印刷電路板基板,另一種基板,例如 玻璃或陶瓷基板可被使用。 可進一步被指出,該裝置可包含進一步主動及被動半導 體70件或電子零件,例如二極體及/或電晶體及電阻器及/ 或電容器,無論是或不是以一積體電路的形式。該生產即 明顯地非常適合於此一目的。為了該雷射的讀取及/或控 制,一處理器或其他電子配備的加入被包含於此。 一雷射之腔室内的一改變,其表示了 一手指的移動,也 被以一獨特的電氣方式建立,例如,以該腔室阻抗的測量, 像被美國專利申請案US 2002/0104957敘述者。為了該雷射 的讀取及/或控制,一處理器或其他電子配備的加入也被包 含於此。 【圖式簡單說明】 本發明之這些及其他目的以及具有優點之概念將會利用 以下之圖式做更細節的描述,其中 圖1顯示以一輪廓及透視圓表示根據本發明一光電輸入 裝置的一實施例, 圖2顯示以在圖1中標示Π的方向,本裝置側面的一部份 輪廓圖, 90891.doc -17- 1358655 圖3顯示以在圖1中標示III的方向,本裝置透視的一部份 輪廊圖* . 圖4顯示圖1中本裝置的一種重要變化的一輪廓及透視圖。 【圖式代表符號說明】 1 雷射 2 鏡面 3 量測構件 4 架設板 5 塊形體 5Α 堍形體的最上部份 5Α1 塊形體的最上部份的第一部份 5Α2 塊形體的最上部份的第二部份 6 進一步塊形體 7 進一步鏡面 9 導體單元 10 光電輸入裝置 11 光學模組 12 開口 13 熱傳導材料 14 散熱物 20 連接線 Μ 物體 V 上表面 S 章測射線光束 90891.doc -18-1358655 发明, Invention Description: [Technical Field] The present invention relates to an optoelectronic input device in which the input is formed by a measured movement of an object, the device comprising an optical module having at least one a laser comprising a chamber for fabricating a ray-illuminated light beam; an optical member for directing a beam of radiation to a plane adjacent to the object, and a conversion member for converting the reflection and modulation by the object The ray of the ray beam is an electrical signal, and the conversion member is formed by combining the chamber of the laser and the measuring member for measuring a change in the chamber during the operation. The reflected radiation entering the chamber causes 'which represents the movement of the object relative to the module, the optical module comprising a laser mounted on a mounting plate, the chamber parallel thereto, and the optical member An optical component is mounted that is mounted on the mounting plate and aligned with the laser, from which the measuring beam of light emitted from the laser travels to the flat near the object . One such device is particularly suitable for use as an input member for a personal computer, and the function often referred to as a mouse on this document can be replaced. The device is also more suitable for use as a reel or click device in a portable device, such as for use in a mobile phone, commonly referred to as a reel menu. In a printer or scanner, the movement of the input or output medium can be detected by the unit. The invention also relates to an operational method of fabricating such devices, and an operational method for measuring the motion of an object with the aid of such devices. [Prior Art] A U.S. Patent Application Serial No. 90 891. doc 1 358 655 2002/0104957, which is incorporated by reference in its entirety, is hereby incorporated by reference. In this context: - see Figure 9a - the input device is shown on a shelf, the erection plate is formed as a foot that matches the erection pin, a laser is placed in parallel with its chamber The erection board. The device contains three of these lasers that are assembled at an angle of 120 degrees (see Figure 9b). Around the laser, an annular body is mounted, and a focusing mirror is formed on the inner side thereof to guide a measuring beam of light emitted by the laser through a lens to a window, the window is in the cover of the module in. A portion of the ray is reflected from the process to a moving animal and then returns straight to the chamber of the laser. The chamber and the measuring member together form the reflected beam-converting member, and in a chamber, a relative movement of the object is indicated. For example, the == is a component that measures a change in the impedance contained in the laser chamber. A line detector is also suitable for this purpose. The disadvantage of this conventional device is that it is not sufficiently small for many applications. For smaller applications such as smaller sizes are required. In particular, mass production of such devices is not easy and inexpensive. SUMMARY OF THE INVENTION Therefore, the __ object of the present invention is to manufacture - such devices as stated in the introduction, which are particularly compact and inexpensive and easy to manufacture. Said in the introduction - the further optical parts comprising - the partition walls of the laser, and stacked, and at least the uppermost portion being near the plane of the object. The other party for this reason 'in accordance with the present invention, the device is characterized in that the device comprises - a piece of body directly on the erecting plate for projection viewing and the laser is not heavily optically transparent and the upper side forms the 90891 .doc 1358655 Face' This means that the device can be quite small. The measuring beam of light can be directed to the block (four) relative to the mounting plate. By this small angle, the ray beam can be reflected back and forth several times in the transparent portion of the block before reaching the upper plane. According to the invention, the result is that both the lateral dimension and the height of the device are defined, whereas the relatively large optical range of the radiation beam is created as required for the proper operation of the henry device. On the other hand, the most important part of the device, such as the laser, the optical component, which is exemplified by a mirror surface, and the block body, can now be attached to the erection by means of surface mounting. On the board. With the relatively high accuracy of the standard, and the quick and inexpensive assistance known as the pick and place machine, this can be done "because the block has absolutely no overlap with the laser in particular." It can be simply packaged in a transparent plastic material. The liquid transparent plastic material which is cured after application is particularly suitable for this purpose. Preferably, the block is directed to a side of a first portion of the transparent uppermost portion of the measuring beam of light and is inclined outwardly. This causes the measurement ray beam to be corrected for any interference entering the block. The amount of the angle of the side relative to the normal is, for example, 3 degrees. The uppermost portion of the block further includes a second portion disposed on the first portion, the sides of which are substantially perpendicular to the mounting plate. The ray beam can be reflected several times in this section. Preferably, the block is entirely made of a transparent plastic such as pMMA (PolyMethylMetaAcrylate) or polycarbonate (P〇lycarb〇nat hook. In a useful variation) the measuring member contains a ray disposed on the erecting plate Detecting _, and the optical component includes a focusing mirror disposed on a side of a further block of 90891.doc -9- 1358655, the further block device is disposed on the mounting plate, and the side is provided with a Further mirroring, the projection portion of the radiation emitted by the laser is on the radiation detector. In a preferred embodiment of an input device according to the invention, the laser, the side member and the optical The member is encapsulated in a hardened optically clear gel, which also includes the entire ray distance from the laser to the block. This results in at least one of the most vulnerable and sensitive parts of the device or module being small and priced. Inexpensive packaging. This also limits the number of medium transitions that may occur in reflection. The best results in this case can be obtained with a transparent plastic material. Preferably, the erecting plate An electric and thermal insulating material, and one side of the mounting plate is provided with a conductor unit, and the laser and the side member are connected to the conductor single 7L. This also contributes to the compactness of the device. In other words, the device is inexpensive 'because a large number of devices can be manufactured at the same time. The so-called printed circuit board (PCB) has a particularly suitable erecting plate. In an advantageous modification, the erecting plate has an opening 'near the laser, the opening of the laser at least its wall surface being covered by a thermally conductive material' which forms a heat sink of the laser or formed on the laser a thermal connection with the laser-heat sink. If the opening is completely filled with a material such as copper, the laser can be mounted thereon. If desired, the laser can advantageously Installed beside the opening, and as such, the conductive metal in the opening joins the laser to a heat sink of 90891.doc -10- 1358655 located below the erection plate. Such a change results in a reduction of the device Height dimension is possible or Talk about how the module is placed on the portion of the erection plate. According to the present invention, a method of operation for measuring the movement of an object relative to an input device is characterized by utilizing a photo according to the above conclusion The fact that the device is input. Because of this small size, the device is particularly suitable for use as an input unit, operating a so-called reel menu in the operation of a mobile phone. On a laptop computer, the device can also be advantageously The application is a commonly used pressure pad for a plurality of menu fingers. A method of producing a photoelectric input device, wherein the input is formed by an object being detected to move, and the device is coupled with an optical module, The module includes: at least one laser having a chamber for generating a measuring beam; an optical member for guiding the beam to a plane close to the object; and a conversion member for converting the reflection by the object The ray of the measuring beam is an electronic signal, wherein the converting member is used by the chamber and the measuring member of the laser to measure the operation a combination of variations in the interior caused by the interference of the reflected beam of the measuring beam of light - a constant wave that the measuring beam penetrates into the chamber and the chamber, which represents one of the object relative to the module For relative motion, the optical module is formed by a mounting plate on which a chamber is disposed parallel to one of the plates, and the optical member is formed by an optical component disposed on the erection plate and aligned with the ray Shooting for the measurement beam of light emitted by the laser, from which it is directed to the plane of the object, according to the invention, the optical member is characterized in that the device is equipped with a further optical zero. a piece comprising a body that is directly attached to the erection plate and adjacent to the laser, and 90891.doc •11- 1358655 does not overlap with the laser in any manner as viewed from a projection angle, and at least the uppermost The portion is optically transparent and its upper side forms a plane adjacent the object. In this way, a wheeled device according to the invention can be obtained. Preferably, the measuring member is constituted by a radiation detector, the device is mounted on the mounting plate and the optical component is formed as a focusing mirror and the device is on the side of the -step block body, the step block The body device is mounted on the erecting plate, and the side surface is provided with an n-step mirror surface, and the projection portion is irradiated with the radiation emitted by the laser to the radiation detector. , in the preferred embodiment of the invention, the optical member is covered with a liquid optically transparent gel which seals the path from the laser to the entire ray of the block, and after application hardening. Preferably, the electrical and thermal insulation material is selected as the material of the (four) plate, the surface of which is mounted with a conductor unit to which the laser and the measuring member are coupled. Thus, the most important portion is attached to the mounting plate 4 in a surface-adhesive manner, such as the laser 'the progressive optical component, the optical member and the measuring member. The part can be placed on the erection plate with the aid of a standard piek and plaee machine. In a particularly advantageous variant, such as the laser, further optical parts, the optical component or the material component (d) before the part of the calibration (4) is placed on the erection plate, the adhesive area is formed on the erection plate, the side dimension of the area in the basin is selected, and (4) the relevant part is placed on the side of the side of the erection plate The dimensions are almost the same. As a result, in the small correction of the position of the parts, the precise calibration of the relevant parts - 9089l.doc • 12 - 1358655 can be further improved - it can still be self-aligned ( The method of selfregisterin^ is borrowed (four) with the help of the area. The area with solder is particularly suitable for this purpose. In the process of melting the solder, the parts provided with the metal layer on the back are self-registered. In a manner, aligned with respect to the weld (four), such parts that do not require any electrical connection, such as the block and the further block, can also be advantageously adhered and calibrated by this method. For this purpose, such parts The bottom surface will be specially provided with a metal layer. The laser and the debt detector crystal will have one such conductive layer as the specification. [Embodiment] The drawings are not drawn to scale and have some dimensions, such as thickness. The size 'is exaggerated for clarity. In the different drawings, corresponding regions or portions, the same component symbols are given to the extent possible. The input device 10 shown in Fig. 1 includes a module n It has a mounting plate 4, here a printed circuit board 4. On this plate there is a conductor unit 9, here in the form of a copper region 9. A laser beam and a photodiode 3 are mounted Above them, a connection line 20 is used for the top of the laser and the top of the photodiode 3. The optical member 2 is placed in the form of a focusing mirror 2 on the laser 1 and the photodiode On one side of the body 3, the focusing mirror Receiving a measurement ray beam s from one of the laser 1 radiations, and guiding the erection plate at an angle of about 3 degrees to an in-step optical component (see FIG. 2 or 3), which is included in the laser A piece of body on one side of the beam that is positioned on the erection plate 4. In this embodiment, the module 丨丨 contains more than one laser 丨, 丨, of which only two are seen in the figure. The parts 2, 3 attached to each of the lasers i, 丨 are also indicated by the corresponding numbers. 90891.doc • 13· 1358655 The block 5 is here entirely made of a transparent plastic material called PMMA. The ray meter S enters (see Fig. 2) the block body 5, which is reflected by a first portion 5A of the uppermost portion 5A and after being placed in the portion of the first portion 5A1 - β 5A2 , reaching the upper plane v of the body 5, above which (see FIG. 1) there is a moving object Μ, for example, a paper, or as shown in the figure, a finger Μβ of the person operating the device 10 is moved Finger Μ The reflected ray travels in the opposite direction and reaches the chamber of the laser ,, which causes a change It appears to be a result of the movement of the finger caused by interference. In this embodiment, the occurrence of the change in the chamber of the laser cymbal is measured with the aid of a ray detector 3, which is here a photodiode 3, partially The ray emitted by the laser 1 is incident thereon. This can be accomplished with the assistance of a further mirror 7 (see Fig. 3) which is placed on one side of a further block 6, here also made of plastic material. The mirror 2, which reflects the ray beam S to the block 5, is mounted on the same side. The cavity to the further mirror 7 and the radiation detector 3 form a conversion member C' which converts the radiation reflected and modulated by the object into an electronic signal. Further details of the detection of the movement of the finger are shown in the above-mentioned U.S. Patent Application Serial No. 1; 82〇〇2/〇1〇4957. As shown in FIG. 2, there is an opening 12 in the mounting plate 4, and at least the wall surface of the laser bud is covered by a heat conducting material 13, which is copper here, which connects the laser 1 and the - (four) material 14, The heat sink is located on the side of the mounting plate 4 opposite to the laser 1. Each side of the first portion 5A1 of the uppermost portion 5 of the block 5 is simultaneously constructed to be outwardly inclined, and the method is 90891.doc -14 * * 1358655 line is 30 degrees. As a result, any reflection from the ray beam S can be offset when entering the block body $. The laser 1 and here, that is to say the rest, for example the photodiode 3 and the further block 6, are placed outside the block 5 from the point of projection, which is indicated in FIG. An obvious advantage. Figure 4 shows an important variation of the apparatus of Figure 1 in a schematic and perspective view. Here, a transparent package 8 can be seen, which can be easily applied because the overlap of the block 5 and the further parts 3, 6 is not present. The package 8 contains the entire ray path of the beam s between the laser and the block 5 and protects the parts by covering and contributes to the stable operation of the device 1 也是 also due to interference reflection Both are avoided, or at least limited. A thin further package (not shown) can be applied over the package 8 and is opaque to the radiation, if desired. The package 8 is here a ruthenium-based plastic material and is a material that is particularly suitable for this purpose. Further and better, as shown in Fig. 4, the upper plane v of the block 5 is curved. As a result, a user of the device (e.g., a mobile phone) into which the device is integrated can easily find and properly clean the plane. The apparatus according to the present invention, exemplified by the embodiment of the drawings, can be manufactured as follows, with the aid of the method of operation according to the present invention. The starting point (see Fig. 1 for example) is a printed circuit board 4 having an opening 12 whose wall is covered by a layer of copper 13. Above the upper side of the plate 4, a conductor unit 9 is placed to connect the active electrical components such as the laser 1 and the photodiode 3. In particular, for parts such as the laser 1 and the alignment of the photodiode 3, and also for the bricks 5, 6, the solder area (not shown) is applied to the 90891.doc -15· 1358655 This upper side of the plate 4, previously predetermined precise position. * iS ^ JL Φ u ^ ^ The dimensions of these regions are k疋 as the actual and the placed zeros ♦ such as laser 丨, photodiode 6 3 body 5, 6, the size is exactly the same . All of these parts 3, 5 have a metal layer on their bottom surface (also not shown and then with the help of the pick-up machine, the above-mentioned parts are placed relatively accurately on the solder area described above. Then with the board 4 Fixing occurs in the -welding process, whereby the small errors of the placed parts are automatically corrected. This provides the part 1, 3, 5, 6 of the module in a simple 'quick and inexpensive way' The charge is relatively accurate. After the surface of the parts, the additional electrical connections required for the active electrical parts can be accomplished by the connection line 2G. A thermal compression technique (plus compression) can be used for this. Then (see Fig. 4), a package made of plastic material in the form of droplets 8 is applied, which covers the laser 1' of the photodiode 3 and the mirror h is in the laser and the block 5 The ray path of the beam S can be found in the droplets. "The electrical connections of the active electrical components 丨, 3 (not shown) extend outside the package 8, or if needed Is located at the bottom of the board 4 After the package 8 has been hardened, for example by heating, the device 10 is ready for use. Due to the structure of the module, a large number of devices 10 can be easily manufactured at the same time. A segmentation technique such as 'they can be separated from each other. A single device i 〇 is about 30*30 gongs but the height is no more than 1 〇 public. The block 5 is 10 mm high. And the amount is, for example, 5 mm * 5 public. 90891.doc -16· 1358655 The present invention is not limited to the specific embodiment described, because for the expert, many variations within the framework of the present invention And modifications are possible. Therefore, the device can be produced in different shapes or sizes. For application, the device according to the invention may also comprise one or more than two lasers and their associated parts. It can replace the printed circuit board substrate. Another substrate, such as a glass or ceramic substrate, can be used. It can further be noted that the device can comprise further active and passive semiconductors 70 pieces or electronic components, such as diodes and/or transistors. And resistors and/or capacitors, whether or not in the form of an integrated circuit. This production is clearly well suited for this purpose. For the reading and / or control of the laser, a processor or other electronics The addition of equipment is included here. A change in the chamber of a laser that represents the movement of a finger is also established in a unique electrical manner, for example, by measuring the impedance of the chamber, like a US patent. The application is described in US 2002/0104957. For the reading and/or control of the laser, the addition of a processor or other electronic device is also included herein. [Schematic Description] These and other objects of the present invention and The concept of the advantages will be described in more detail with the following drawings, in which FIG. 1 shows an embodiment of an optoelectronic input device according to the present invention in a contour and a perspective circle, and FIG. 2 is shown in FIG. Direction, a partial outline of the side of the device, 90891.doc -17- 1358655 Figure 3 shows a partial view of the front view of the device in the direction indicated by III in Figure 1. * Figure 4 shows Figure 1 Nakamoto And an outline perspective view of an important variation opposed. [Description of Symbols] 1 Laser 2 Mirror 3 Measuring member 4 Mounting plate 5 Block 5 最 The uppermost part of the Α body 5 Α 1 The first part of the upper part of the block 5 Α 2 The upper part of the block Two parts 6 further block shape 7 further mirror 9 conductor unit 10 photoelectric input device 11 optical module 12 opening 13 heat conductive material 14 heat sink 20 connecting wire 物体 object V upper surface S chapter ray beam 90891.doc -18-

Claims (1)

1358655 册 9. 10- 年月日修正本 第093101754號專利申請案 中文申請專利範圍替換本(100年9 拾、申請專利範園: 月) 1. 一種光電輸入裝置(10),其中該輸入係由一物體(M)被偵 測的移動所形成,該裝置包含一光學模組(1 G,其包含具 有用於產生一量測輻射光束(s)的一腔室之至少一雷射 (1,1),用於將該輻射光束(s)導引至靠近該物體(M)的一 平面(V)之光學構件(2),以及轉換構件(c),其用以將由 該物體(M)反射及調變的量測輻射光束的輻射轉換為一 電子訊號,該轉換構件(C)由該雷射(丨)之該腔室與用以量 測運作中在該腔室内一改變之量測構件(3)組合而成該 改變係由進入該腔室的反射輻射所引起,該反射輻射表 不該物體(M)相對於該模組(11)的移動,該光學模組(u) 包含該雷射(1),其被裝置在一架設板(4)上,其腔室平行 於它,該光學構件(2)包含裝設在該架設板(句上的一光學 零件(2) ’並且其與該雷射(丨)對準,該雷射(丨)發射的該量 測光束(s)射向接近該物體(M)的該平面(v),特徵在該裝 置(10)包含一進一步光學零件,其包含裝設鄰近於該雷射 (1)並且直接位於該架設板上之一塊形體(5),並且當從投 射觀看時,該塊形體(5)與該雷射(1)沒有重疊,並且至少 該塊形體(5)的最上部份(5A)為光學透明且該塊形體⑺的 該上側形成靠近該物體(M)之該平面(v)。 2.如申請專利範圍第i項之光學輸入裝置⑽,特徵在於該 塊形體⑸的該透明最上部份(5A)包含一第一部份 (5A1)’其-側向著該量測輻射光束(s)被傾斜向外,且一 第二部分(5 A2)置放在該第—部份(5 a 1)之上,該第一部分 9089M000916.doc 的該等外側為大致垂直於該架設板(4) β 3.如申請專利範圍第丨或2項之光電輸入裝置(1〇),特徵在於 整個該塊形體(5)由一光學透明塑膠材料製成。 4_如申請專利範圍第丨或2項之光電輸入裝置(1〇),特徵在於 該量測構件(3)包含一安裝於架設板之輻射偵測器(3),其 和6亥塊形體(5)沒有重疊,且該光學零件(2)包含一鏡面, 其為内聚且被安置於一進一步塊形體(6)之一側面,其被 安裝於該架設板(4)上,並且和該塊形體(5)沒有重疊,該 塊形體之側面包含-進—步鏡面⑺’其投射部分被該雷 射(1)發出的該輻射在該輻射偵測器(3)上。 5·如申請專利範圍第丨或2項的光電輸入裝置,特徵在於該 雷射(1) ’該量測構件(3)以及該光學構件(2)被一硬化之光 學透明膠體(8)覆蓋,其也包含從雷射至該塊形體之整 個輻射路徑。 6.如申請專利範圍第5項之光電輸入裝置(1〇),特徵在於該 硬化之光學透明膠體(8)包含一矽塑膠材料。 7·如申請專利範圍第1或2項的光電輸入裝置(1〇),特徵在於 該架設板(4)由一電及熱絕緣材料製成,並且其中一側提 供有一導體單元(9) ’該雷射(1)及該量測構件(3)與該導體 單元連接。 8·如申請專利範圍第7項之光電輸入裝置,特徵在於位於該 雷射(1)旁之該架設板(4)’具有一開口(12),其中至少其 壁面被一熱傳導材料(13)覆蓋,形成該雷射(!)之一散熱 物’或和該雷射(1)之一散熱物(4)相連接。 9089M 0009I6.doc , 1358655 申明專利範圍第7項之光電輸入裝置,特徵在於該架設 板包含一印刷電路板。 瓜:種用以量測一物體㈤相對於一輸入裝置⑽之移動的. 操作方法,該方法包含下列步驟: 藉由一光學模組(11)產生一量測輻射光束(s),該光學 模組(11)包含具有一腔室的至少一雷射(1、丨,), 藉由光學構件(2)及一進一步光學零件將該輻射光束 (S)引導至接近該物體(M)的一平面(v),該進一步光學零 件包含一塊形體(5),其安裝相鄰於該雷射(1),並直接安 丨 裂在架設板(4)上’並且當從投射觀看時,與該雷射⑴沒 有重疊’並且其至少該最上部份(5A)為光學透明且其該上 側形成靠近該物體(M)之該平面(v),及 藉由轉換構件(C)將該量測輻射光束(S)轉換,將由該 物體(M)調變並反射的該量測輻射光束(s)轉換成為一電 子化號,該轉換構件(c)由該雷射(1)的該腔室及用於量測 該腔室中的一改變的量測構件(3)結合而形成,該腔室中 的改變係在操作期間由進入該腔室的反射輻射所造成,( 該反射輻射表示相對於該模組(11}的該物體(M)之一移 動,该光學模組(11)包含安裝在一架設板(4)上的雷射 (1),且其腔室與其平行,及該光學構件(2)包含安裝在該 架設板(4)上的一光學元件,其與該雷射(1)對準,該雷射 (1)發射的該量測光束(2)射向接近該物體(M)的該平面 (V) 〇 90891-10009l6.doc 1358655 11· 一種生產光電輸入裝置(10)之作業方法’其中該輸入由一 物體(Μ)被偵測的移動所構成,該裝置包含一光學模組 (11) ’其包含具有用於產生一量測輻射光束(s)的一腔室 之至少一雷射(1 ’ 1·)’用於導引該輻射光束(s)至靠近該 物體(M)的一平面(V)之光學構件(2),及轉換構件(c),其 用於將由該物體(M)反射並調變的該量測輻射光束(3)轉 換為一電子訊號,該轉換構件(C)係由該雷射(1)的該腔室 以及用於量測運作中該腔室中一改變的量測構件之組 合所構成’該改變由進入該腔室的反射輻射所引起,該 反射輻射表示該物體(M)相對於該模組(11)的移動,該光 學模組(11)包含該雷射(1),其被安裝在一架設板(4)上, 其腔室平行於它,以及該光學構件(2)其包含裝設在該架 設板(4)上之一光學零件(2),其與該雷射〇)對準,該雷射 (1)發射的該量測光束(S)射向接近該物體(M)的該平面 (V),其特徵在於:該裝置(10)包含一進一步光學零件, 其包含一塊形體(5),其被安裝在鄰近於該雷射(丨),並直 接在該架設板(4)上,並且當其由投射被觀看,該塊形體 (5)不和該雷射(1)有重疊,並且該塊形體(5)的至少最上部 份(5A)為光學透明並且該塊形體(5)的上側形成靠近該物 體(M)的該平面(V)。 12.如申請專利範圍第11項之作業方法’特徵在於該量測構 件(3)由一輻射偵測器(3)所構成,其裝設在該架設板(4) 上並且該光學零件(2)由一聚焦鏡構成且位於一進一步塊 形體(6)的一側面上,該進一步塊形體(6)被裝於該架設板 90891-1000916.doc * 1358655 (4)上,該側面被裝有一進一步鏡面(7),用以反射部分被 該雷射(1)放出的輻射至該輻射偵測器(3)。 13. 14. 15. 16. 如申請專利範圍第11或12項之作業方法,特徵在於該雷 射(1) ’該量測構件(3)以及該光學構件(2)被一液態光學透 明膠體(8)覆蓋,其包含了整個從該雷射至該塊形體的 輻射路徑’並且其在施用後被硬化。 如申請專利範圍第11或12項之作業方法,特徵在於一電 及熱絕緣的材料被選為該架設板的材料,其中一側具有 一導體單元(9) ’該雷射(1)和該量測構件(3)與該導體單元 連接。 如申請專利範圍第丨丨或12項之作業方法,特徵在於該裝 置(10)的零件,像是該雷射(1),該進一步光學零件, 該光學構件(2)及該量測構件(3)以標準取放機器的方式 被放在該架設板(4)上。 如申請專利範圍第11或12項之作業方法,特徵在該裝置 (1〇)之該等對校準敏感的零件,例如該雷射(1),該進一 步光學零件⑺,該光學構件⑺或該量測構件(3)被放置在 架設板(4)上之前,㈣區域㈣成㈣架設板⑷上,其 中該側向尺寸被選擇為實際上和相對應零件固定在該^ 設板(4)上之該側的側向尺寸相同。 90891-1000916.doc1358655 Volume 9. 10-Year-Day Revision This patent application No. 093101754 Replaces the patent application scope (100 years 9 pick-up, patent application park: month) 1. An optoelectronic input device (10), wherein the input system Formed by the detected movement of an object (M), the apparatus comprises an optical module (1 G comprising at least one laser having a chamber for generating a measuring radiation beam (s) (1 1) an optical member (2) for guiding the radiation beam (s) to a plane (V) close to the object (M), and a conversion member (c) for being used by the object (M) The reflected and modulated radiation of the measuring radiation beam is converted into an electronic signal, and the switching member (C) is changed from the chamber of the laser (丨) to the chamber for measuring operation The measuring member (3) is combined to cause the change to be caused by reflected radiation entering the chamber, the reflected radiation not reflecting the movement of the object (M) relative to the module (11), the optical module (u) Containing the laser (1), which is mounted on a mounting plate (4) with a chamber parallel to it, the optical structure (2) comprising an optical component (2) mounted on the mounting plate (and an alignment with the laser (丨), the measuring beam (s) emitted by the laser (丨) The plane (v) proximate to the object (M), characterized in that the device (10) comprises a further optical component comprising a block shaped body (5) adjacent to the laser (1) and located directly on the mounting plate (5) And, when viewed from the projection, the block (5) does not overlap with the laser (1), and at least the uppermost portion (5A) of the block (5) is optically transparent and the block (7) The upper side forms the plane (v) adjacent to the object (M). 2. The optical input device (10) of claim i, characterized in that the transparent uppermost portion (5A) of the block (5) comprises a first portion The portion (5A1) 'the side of the measuring radiation beam (s) is inclined outward, and a second portion (5 A2) is placed above the first portion (5 a 1), the first portion The outer sides of 9089M000916.doc are substantially perpendicular to the erecting plate (4) β 3. The photoelectric input device according to item 丨 or 2 of the patent application scope (1) The feature is that the entire block (5) is made of an optically transparent plastic material. 4_ The photoelectric input device (1) of claim 2 or 2, characterized in that the measuring member (3) comprises a radiation detector (3) mounted on the erection plate, which does not overlap with the 6-piece block (5), and the optical component (2) includes a mirror surface which is cohesive and disposed in a further block body ( 6) one side, which is mounted on the mounting plate (4) and does not overlap with the block body (5), the side of the block body comprising a - step mirror surface (7) 'the projection portion of which is projected by the laser ( 1) The radiation emitted is on the radiation detector (3). 5. The optoelectronic input device of claim 2 or 2, characterized in that the laser (1) 'the measuring member (3) and the optical member (2) are covered by a hardened optically transparent colloid (8) It also contains the entire radiation path from the laser to the block. 6. An optoelectronic input device (1) according to claim 5, characterized in that the hardened optically transparent colloid (8) comprises a plastic material. 7. The photoelectric input device (1) according to claim 1 or 2, characterized in that the mounting plate (4) is made of an electrical and thermal insulating material, and one of the conductor units (9) is provided on one side. The laser (1) and the measuring member (3) are connected to the conductor unit. 8. The photoelectric input device of claim 7, characterized in that the mounting plate (4)' located beside the laser (1) has an opening (12), at least one of its walls is covered by a heat conducting material (13) Covering, forming a heat sink of one of the lasers (!) or connecting with one of the radiators (4) of the laser (1). The optical input device of claim 7 is characterized in that the mounting plate comprises a printed circuit board. A method for measuring the movement of an object (5) relative to an input device (10). The method comprises the steps of: generating a measuring radiation beam (s) by an optical module (11), the optical The module (11) includes at least one laser (1, 丨,) having a chamber for guiding the radiation beam (S) to the object (M) by the optical member (2) and a further optical component a plane (v), the further optical component comprising a body (5) mounted adjacent to the laser (1) and directly ruptured on the erection plate (4) and when viewed from the projection, The laser (1) has no overlap 'and at least the uppermost portion (5A) is optically transparent and the upper side forms the plane (v) close to the object (M), and the measurement is measured by the conversion member (C) The radiation beam (S) is converted to convert the measured radiation beam (s) modulated and reflected by the object (M) into an electronic number, the conversion member (c) being the chamber of the laser (1) And a measuring member (3) for measuring a change in the chamber is formed in combination, the modification in the chamber Caused by reflected radiation entering the chamber during operation (the reflected radiation indicates movement relative to one of the objects (M) of the module (11), the optical module (11) being mounted on an erection a laser (1) on the plate (4) with its chamber parallel thereto, and the optical member (2) comprising an optical component mounted on the mounting plate (4), the pair of lasers (1) The measuring beam (2) emitted by the laser (1) is directed toward the plane (V) close to the object (M) 〇 90891-10009l6.doc 1358655 11 · An operation for producing an optoelectronic input device (10) Method 'where the input consists of a detected movement of an object (Μ), the device comprising an optical module (11) 'which contains at least one chamber for generating a measuring radiation beam (s) a laser (1 '1·)' for guiding the radiation beam (s) to an optical member (2) adjacent to a plane (V) of the object (M), and a conversion member (c) for Converting the modulated radiation beam (3) reflected and modulated by the object (M) into an electronic signal, the conversion member (C) being composed of the laser (1) The chamber and the combination of measuring members for measuring a change in the chamber are configured to cause the change to be caused by reflected radiation entering the chamber, the reflected radiation indicating that the object (M) is relatively For the movement of the module (11), the optical module (11) comprises the laser (1) mounted on a mounting plate (4), the chamber is parallel to it, and the optical member (2) ) comprising an optical component (2) mounted on the mounting plate (4) aligned with the laser beam, the measuring beam (S) emitted by the laser (1) being directed close to the The plane (V) of the object (M), characterized in that the device (10) comprises a further optical component comprising a body (5) mounted adjacent to the laser (丨) and directly On the erection plate (4), and when viewed from the projection, the block (5) does not overlap with the laser (1), and at least the uppermost portion (5A) of the block (5) is optical It is transparent and the upper side of the block (5) forms the plane (V) close to the object (M). 12. The method of operation of claim 11 is characterized in that the measuring member (3) is constituted by a radiation detector (3) mounted on the mounting plate (4) and the optical component ( 2) consisting of a focusing mirror and located on one side of a further block (6), the further block (6) being mounted on the mounting plate 90891-1000916.doc * 1358655 (4), the side being loaded There is a further mirror (7) for reflecting a portion of the radiation emitted by the laser (1) to the radiation detector (3). 13. 14. 15. 16. The method of operation of claim 11 or 12, characterized in that the laser (1) 'the measuring member (3) and the optical member (2) are liquid optically transparent colloids (8) Covering, which contains the entire radiation path from the laser to the block and which is hardened after application. An operation method according to claim 11 or 12, characterized in that an electrically and thermally insulating material is selected as the material of the erection plate, wherein one side has a conductor unit (9) 'the laser (1) and the The measuring member (3) is connected to the conductor unit. The method of operation of claim 丨丨 or 12, characterized by a component of the device (10), such as the laser (1), the further optical component, the optical component (2) and the measuring component ( 3) Placed on the erection plate (4) in a standard pick-and-place machine. The method of operation of claim 11 or 12, characterized in that the pair of calibration sensitive parts of the apparatus (1), such as the laser (1), the further optical part (7), the optical member (7) or the Before the measuring member (3) is placed on the erecting plate (4), the (4) region (4) is formed into a (four) erecting plate (4), wherein the lateral dimension is selected to be substantially fixed to the corresponding plate (4) The lateral dimensions of the upper side are the same. 90891-1000916.doc
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CN1871577B (en) 2010-06-16
US7368703B2 (en) 2008-05-06
WO2004068537A2 (en) 2004-08-12
ATE426200T1 (en) 2009-04-15
JP4602965B2 (en) 2010-12-22
DE602004020055D1 (en) 2009-04-30
KR101034520B1 (en) 2011-05-17
EP1590730A2 (en) 2005-11-02
JP2006516779A (en) 2006-07-06
CN1871577A (en) 2006-11-29
EP1590730B1 (en) 2009-03-18
WO2004068537A3 (en) 2005-07-28
KR20050100642A (en) 2005-10-19
US20060124837A1 (en) 2006-06-15

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